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Enterprise AI Analysis: Adaptive End-to-End Transceiver Design for NextG Pilot-Free and CP-Free Wireless Systems

Enterprise AI Analysis

Adaptive End-to-End Transceiver Design for NextG Pilot-Free and CP-Free Wireless Systems

This report details the transformative potential of AI-native wireless communication, focusing on an innovative end-to-end (E2E) transceiver architecture. By eliminating pilot and cyclic prefix (CP) overhead, integrating AI-driven constellation shaping, and leveraging a neural receiver with adaptive capabilities, this system promises superior spectral efficiency, robustness, and scalability for next-generation (NextG) networks.

Executive Impact: Key Metrics for NextG Wireless

Our analysis reveals critical performance gains and strategic advantages for enterprises adopting AI-native transceiver technology.

0 Throughput Improvement
0 Model Storage Reduction
0 BER Gain (w/ Channel Adapter)
0 PAPR Reduction Target

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

This research fundamentally leverages deep learning for end-to-end transceiver design, moving beyond traditional modular approaches. The application of neural networks for joint optimization of transmitter and receiver components, including constellation shaping, channel estimation, equalization, and demapping, signifies a shift towards AI-native air interfaces. This approach is critical for NextG systems demanding adaptive and efficient communication in highly dynamic environments.

The paper directly addresses the limitations of conventional OFDM systems, specifically the overhead associated with pilots and cyclic prefixes (CP). By proposing a pilot-free and CP-free architecture, it aims to significantly enhance spectral efficiency and throughput. The integration of learning-based geometric constellation shaping further optimizes the waveform to achieve PAPR reduction, which is a major challenge in OFDM systems, ensuring power-efficient transmission.

A core contribution is the design of an adaptive transceiver capable of operating effectively in dynamic channel conditions. The introduction of a lightweight channel adapter (CA) module enables rapid and parameter-efficient adaptation, fine-tuning only a small subset of parameters for new environments. This feature ensures robustness against mismatched or time-varying channel conditions with minimal computational overhead, making the system practical for real-world deployments.

The proposed framework tackles practical deployment challenges by offering scalability across multiple modulation orders within a unified model, drastically reducing model storage requirements. This eliminates the need for separate models for each modulation scheme, simplifying management and deployment. Additionally, the constrained E2E training ensures compliance with PAPR targets without introducing additional transmission overhead, promoting resource-efficient operation crucial for NextG and IoT devices.

26.4% Improvement in Throughput over Conventional Systems

The proposed adaptive E2E transceiver achieves significant throughput gains by eliminating pilot and CP overhead, leading to a substantial increase in spectral efficiency compared to traditional OFDM.

Enterprise Process Flow

AI-based Mapper (Constellation Shaping)
IFFT
Channel
FFT
AI-based Receiver (Neural Receiver)

This flowchart illustrates the end-to-end learning paradigm, jointly optimizing transmitter constellation shaping and the neural receiver for pilot-free and CP-free operation.

Parameter-Efficient Adaptation Strategies

Adaptation Strategy Trainable Params Avg BER (CDL-E) Avg BER (UMa) Key Benefits
Full Fine-Tuning 6.49M 0.01178 0.09860
  • Best performance
  • High computational/storage overhead
Feature Extraction [23] 0.81M 0.01660 0.21588
  • Reduced complexity
  • Higher inference latency
  • Significant performance degradation
Channel Adapter (Ours) 0.23M 0.01338 0.12650
  • Comparable performance to full fine-tuning
  • Minimal computational overhead
  • Robust adaptation

Our lightweight Channel Adapter (CA) achieves efficient transfer learning with minimal trainable parameters (3.5% of full fine-tuning), balancing adaptability and resource efficiency for dynamic channel conditions.

Unified Model for Multi-Order Modulation

The proposed architecture supports multiple modulation orders (e.g., QPSK, 16QAM, 64QAM, 256QAM) within a single unified model. This reduces model storage overhead by up to 75% compared to deploying separate models for each modulation order, simplifying lifecycle management and enabling seamless dynamic adaptation. The learned constellations demonstrate hierarchical structures, where lower-order constellations are subsets of higher-order ones, enabling robust demodulation across varying bit rates.

Benefit: Reduced Model Storage by 75%

8.0 dB Achievable PAPR Target

Through constrained E2E training and geometric constellation shaping, the system can meet specific PAPR targets, mitigating nonlinear distortion without additional transmission overhead, crucial for energy-constrained devices.

Calculate Your Potential AI ROI

Estimate the direct financial and efficiency gains your enterprise could realize by implementing advanced AI solutions.

Estimated Annual Savings $0
Annual Hours Reclaimed 0

Your AI Implementation Roadmap

A strategic outline for integrating AI-native wireless solutions into your enterprise infrastructure.

Phase 1: Discovery & Strategy

Comprehensive assessment of current wireless infrastructure and identification of key integration points for AI-native transceivers. Define clear objectives and success metrics.

Phase 2: Pilot Deployment & Customization

Implement a pilot program with the adaptive E2E transceiver in a controlled environment. Customize constellation shaping and neural receiver parameters for optimal performance in your specific channel conditions.

Phase 3: Scalable Integration & Optimization

Expand deployment across target areas, leveraging multi-order modulation scalability and parameter-efficient adaptation. Continuously monitor performance and optimize for BER, throughput, and PAPR compliance.

Phase 4: Ongoing Support & Evolution

Provide continuous support, performance updates, and adaptation to evolving network requirements and channel conditions, ensuring long-term efficiency and adaptability.

Ready to Transform Your Wireless Infrastructure?

Embrace the future of AI-native wireless communication. Our experts are ready to guide you through implementing adaptive, pilot-free, and CP-free systems for unparalleled performance in NextG networks.

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